Climacteric female health monitoring system applied to intelligent ring

Abstract

The invention belongs to the technical field of health data monitoring, and particularly relates to a climacteric female health monitoring system applied to an intelligent ring, the climacteric female health monitoring system comprises a data acquisition module, a core sensing module, a data processing module, an application end and an intervention feedback module, the data acquisition module comprises a wearable hardware component nested on a finger of a wearer; the core sensing module comprises a data acquisition sensor which is carried on the wearable hardware component and is used for acquiring physiological state data of a wearer; according to the invention, the physiological feature data of the wearer is acquired through the data acquisition sensor in real-time contact with the finger surface of the wearer, then the health condition of the wearer is monitored in real time through the data processing module based on the physiological feature data, and a continuous and long-term data basis is provided for later possible consultation treatment; the present invention improves the physical health condition of a wearer as a climacteric woman.

Description

Technical Field

[0001] This invention belongs to the field of health data monitoring technology, specifically a menopausal women's health monitoring system applied to a smart ring. Background Technology

[0002] Women, burdened by the demands of career development and the significant time and energy they invest in caring for their families and loved ones, often neglect their sub-optimal health. Conventional medical diagnostic methods are insufficient for detecting early-stage diseases, hindering prevention and timely intervention. Furthermore, traditional medicine suffers from drawbacks such as lengthy and costly treatment times. Therefore, to facilitate early detection and treatment of menopausal syndrome, there is an urgent need for convenient, rapid, and accurate diagnostic methods for women with menopausal symptoms.

[0003] Currently, there are no real-time intelligent health monitoring devices on the market specifically designed for menopausal women. Therefore, in order to monitor their health, women can only rely on regular physical examinations or purchase some bulky health examination devices. Such health monitoring methods are not continuous enough and it is difficult to maintain real-time long-term health monitoring. As a result, women cannot detect changes in their physiological data in a timely manner, thus failing to provide data support for possible recuperation or treatment plans later on. Summary of the Invention

[0004] To overcome the shortcomings of existing technologies and solve the aforementioned technical problems, this invention proposes a menopausal women's health monitoring system applied to a smart ring.

[0005] The technical solution adopted by the present invention to solve its technical problem is as follows: The present invention proposes a menopausal women's health monitoring system applied to a smart ring, including a data acquisition module, a core sensing module, a data processing module, an application terminal, and an intervention feedback module. The data acquisition module includes wearable hardware components that are nested on the wearer's finger. The core sensing module includes data acquisition sensors that are mounted on the wearable hardware components to collect the wearer's physiological state data.

[0006] The data processing module processes and analyzes the collected physiological state data, identifies adverse state-related data, and displays it on the App interface; the intervention feedback module provides reminders for the wearer's adverse states and generates targeted treatment plans.

[0007] Preferably, the wearable hardware component includes a wearable ring, which is a circular ring structure. A display interface is provided on the outer surface of the wearable ring corresponding to the back of the wearer's finger. An installation groove is provided on the inner surface of the wearable ring facing the fingertip. The data acquisition sensor is arranged inside the installation groove, and its working end extends out of the installation groove opening.

[0008] The portion of the mounting slot opening surrounding the working end of the data acquisition sensor forms a breathable layer. The breathable layer is equipped with a mesh breathable structure made of elastic material, and a purification zone is provided inside the mounting slot corresponding to the breathable layer. The purification zone is filled with purification particles.

[0009] Preferably, the portion of the outer surface of the wearable ring corresponding to the mounting groove is configured as an elastic part, the elastic part is hollow to form a breathing cavity, and the breathing cavity communicates with the purification zone.

[0010] Preferably, the internal region of the breathing chamber is divided into a cooling zone and a ventilation zone by a partition layer. The cooling zone is filled with coolant, and an annular cooling pipe is provided inside the wearable ring, which communicates with the interior of the cooling zone. The ventilation zone and the purification zone are connected by a connecting hole.

[0011] Preferably, the separator layer includes an arc-shaped heat-conducting plate, and the edge of the heat-conducting plate is fixed to the inner wall of the breathing cavity through an elastic membrane.

[0012] Preferably, the breathing layer has a double-layer structure, including a support layer surrounding the outer surface of the working end of the data acquisition sensor and a breathable layer located inside the purification zone. The breathable layer has an elastic mesh structure. The surface of the support layer is uniformly provided with breathable grooves, which are connected to the gap area between the breathable layer and the support layer.

[0013] Preferably, a duct is slidably disposed inside the connecting hole, one end of the duct is connected to the surface of the breathable layer, and the other end is connected to the surface of the heat-conducting plate; the circumferentially distributed ducts are connected by an arc plate, the arc plate is hollow inside and communicates with the inside of the ducts, and the surface of the arc plate is uniformly provided with duct holes.

[0014] Preferably, the surface of the arc-shaped plate is uniformly provided with stirring rods, the stirring rods are inclined, and the air guide holes are located in the gap area between the stirring rods.

[0015] The beneficial effects of this invention are as follows:

[0016] This invention discloses a menopausal women's health monitoring system applied to a smart ring. It collects physiological characteristic data from the wearer through a data acquisition sensor that maintains real-time contact with the wearer's finger surface. A data processing module then monitors the wearer's health status in real-time based on this physiological characteristic data, feeding back the data and the results of the calculations to the corresponding app interface. The calculated health status data can be analyzed using an existing AI diagnostic module configured in the intervention feedback module, providing data support for subsequent rest, diet, or treatment arrangements. Alternatively, the data can be directly fed back to a specialist physician, providing continuous and long-term data for potential future consultations and treatments, thereby improving the physiological health of the menopausal woman wearing the system. Attached Figure Description

[0017] The invention will now be further described with reference to the accompanying drawings.

[0018] Figure 1 This is a perspective view of the wearable hardware components in this invention;

[0019] Figure 2 This is a partial cross-sectional view of the present invention;

[0020] Figure 3 yes Figure 2 A magnified view of a section at point A in the middle;

[0021] Figure 4 yes Figure 2 A magnified view of a section at point B in the middle;

[0022] Figure 5 This is a three-dimensional schematic diagram of the combination of the breathing layer and the air duct in this invention.

[0023] In the diagram: Wearable ring 1, display interface 11, data acquisition sensor 12, breathing layer 13, support layer 131, breathable layer 132, breathable groove 133, purification zone 14, elastic part 15, breathing chamber 16, cooling zone 161, air exchange zone 162, cooling pipe 163, connecting hole 164, partition layer 17, heat conduction plate 171, elastic membrane 172, air guide tube 18, arc plate 181, air guide hole 182, stirring rod 183. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] Example 1:

[0026] As shown in the attached diagram of the instruction manual. Figures 1-5 As shown, this application proposes a menopausal women's health monitoring system applied to a smart ring, including a data acquisition module, a core sensing module, a data processing module, an application terminal, and an intervention feedback module. The data acquisition module includes wearable hardware components that are nested on the wearer's finger; the core sensing module includes a data acquisition sensor 12 that is mounted on the wearable hardware components to collect the wearer's physiological state data.

[0027] The data processing module processes and analyzes the collected physiological state data, identifies adverse state-related data, and displays it on the App interface; the intervention feedback module provides reminders for the wearer's adverse states and generates targeted treatment plans.

[0028] Specific workflow: In response to the need for real-time monitoring of the physiological health of menopausal women, while developing a physical examination plan, the data collection module and core sensing module are integrated into a smart ring that women can wear daily, so as to realize the real-time collection of the wearer's physiological data and thus realize the real-time detection of the physical health status of menopausal women.

[0029] Specifically, the smart ring, as a wearable hardware component, is nested on the wearer's finger, such as the middle or ring finger, so that the data acquisition sensor 12 integrated in the wearable hardware component can maintain contact with the wearer's finger surface. The specific type of data acquisition sensor 12 is selected based on the wearer's physiological characteristics. For example, a skin temperature sensor can be used to collect the skin temperature of the wearer's finger area. Based on the temperature data, it can monitor conditions such as nighttime body temperature fluctuations, hot flashes, and luteal insufficiency that the wearer may experience. Alternatively, an optical heart rate sensor can be used to measure the wearer's heart rate changes through the finger skin, which can be used to monitor conditions such as autonomic nervous system disorders, hot flashes, palpitations, anxiety, and sleep quality that the wearer may experience.

[0030] The collected physiological characteristic data can be transmitted to the data processing module, which can be a microprocessor integrated into the wearable hardware component or computing software installed in an external mobile phone or computer. Based on the physiological characteristic data, the wearer's health status is monitored in real time, and the data and the results of the calculation and analysis are fed back to the corresponding App interface on the application terminal, which can be a mobile phone or computer device. The health status data of the wearer obtained from the calculation and analysis can be analyzed by the existing AI diagnostic module configured in the intervention feedback module, and provide data support for subsequent rest, diet or treatment arrangements. Alternatively, the above data can be directly fed back to a professional physician, providing continuous and long-term data basis for possible consultation and treatment in the future, thereby improving the physiological health status of menopausal women wearing the device.

[0031] Example 2:

[0032] Based on Embodiment 1, the wearable hardware component includes a wearable ring 1, which is a circular ring structure. A display interface 11 is provided on the outer surface of the wearable ring 1 corresponding to the back of the wearer's finger. An installation groove is provided on the inner surface of the wearable ring 1 facing the fingertip. A data acquisition sensor 12 is arranged inside the installation groove, and its working end extends out of the installation groove opening.

[0033] The part of the mounting slot opening surrounding the working end of the data acquisition sensor 12 is a breathing layer 13. The breathing layer 13 is provided with a mesh breathable structure of elastic material, and a purification zone 14 is provided inside the mounting slot corresponding to the breathing layer 13. The purification zone 14 is filled with purification particles.

[0034] Specific workflow: Based on the specific workflow in Example 1, in the specific usage process, the wearable ring 1 is nested on the wearer's finger, and the position is adjusted so that the display interface 11 is rotated to the back of the finger. The working end of the data acquisition sensor 12 on the inner ring of the wearable ring 1 is slightly protruding and keeps in contact with the fingertip. In this way, the working end of the data acquisition sensor 12 can detect the contacting finger and collect the wearer's physiological data.

[0035] Considering that the normal contact gap between the wearer's fingers and the wear ring 1 is difficult to breathe, and sweat and dirt are prone to accumulate and clump together, affecting the normal operation of the data acquisition sensor 12, the outer annular area of ​​the data acquisition sensor 12 is set as a breathable layer 13. Because the breathable layer 13 has an elastic mesh structure, when the fingers move, the breathable layer 13 is squeezed, causing the surface of the breathable layer 13 to deform under pressure, promoting air exchange between the inner and outer areas. The purification zone 14 is filled with purification particles, which can be obtained by mixing dry particles and activated carbon particles. These particles can absorb moisture and dirt impurities in the contact gap area, ensuring the dryness and cleanliness of the contact gap area between the wear ring 1 and the fingers. This effectively ensures the normal operation of the data acquisition sensor 12 and thus guarantees real-time monitoring of the wearer's health status. Furthermore, bactericidal ingredients, such as nano-silver particles, can be mixed into the purification particles to inhibit the growth of bacteria that may occur in the contact gap area.

[0036] When users perform regular maintenance on the wearable ring 1, they can open the breathing layer 13 to replace the purification particles in the internal purification zone 14, and clean and replace the dirt adhering to the surface of the breathing layer 13 to ensure the normal operation of the breathing layer 13 and the purification particles in the internal purification zone 14.

[0037] Example 3:

[0038] Based on Embodiment 2, the part corresponding to the mounting groove on the outer surface of the wearable ring 1 is set as an elastic part 15, and the inside of the elastic part 15 is hollow to form a breathing chamber 16, which is connected to the purification area 14.

[0039] The internal area of ​​the breathing chamber 16 is divided into a cooling zone 161 and a ventilation zone 162 by a partition layer 17. The cooling zone 161 is filled with coolant, and an annular cooling pipe 163 is provided inside the wearable ring 1, which communicates with the interior of the cooling zone 161. The ventilation zone 162 is connected to the purification zone 14 through a connecting hole 164. During the encapsulation process, the cooling pipe 163 can be positioned to pass through the integrated position of electronic components inside the wearable ring 1, and the cooling pipe 163 can be made of a material with good thermal conductivity.

[0040] Specific workflow: Based on the specific workflow in Example 2, the elastic part 15 area of ​​the elastic material on the outer surface of the wear ring 1 corresponds to the wearer's fingertip. When the wearer bends their finger, the elastic part 15 area is pressed and deformed, causing the internal breathing chamber 16 to deform. The change in air pressure accelerates the air exchange between the connected purification zone 14 and the contact gap area, further ensuring the dryness and cleanliness of the contact gap area between the wear ring 1 and the finger.

[0041] Specifically, inside the breathing chamber 16, the partition layer 17 divides the internal area of ​​the breathing chamber 16 into a cooling zone 161 and an air exchange zone 162. The cooling zone 161 is filled with coolant, which can be a coolant specifically for existing electronic components and equipment, and is located on the side close to the outer surface of the elastic part 15. The elastic part 15 can be made of an elastic material with good thermal conductivity. In this way, the compression of the elastic part 15 during the deformation of the finger causes the coolant inside the cooling zone 161 to exchange and flow along the cooling pipe 163, and disperses the heat generated by the electronic components in other parts of the wear ring 1 during operation to the cooling zone 161, and transfers it to the outside through the elastic part 15. This can reduce the situation where the wear ring is affected by local overheating caused by the operation of internal electronic components during operation.

[0042] During the compression process, the deformation of the cooling zone 161 further compresses the interior of the ventilation zone 162. The change in air pressure causes the airflow to exchange between the interior of the ventilation zone 162 and the purification zone 14. At the same time, the airflow exchange process and the change in air pressure also promote the air exchange between the contact gap area between the wearable ring 1 and the finger and the purification zone 14, which facilitates the absorption of water vapor and impurities accumulated in the contact gap by the purification particles, ensuring the cleanliness of the contact gap.

[0043] Furthermore, by setting the partition layer 17 including an arc-shaped heat-conducting plate 171, the edge of the heat-conducting plate 171 is fixed to the inner wall of the breathing chamber 16 through an elastic membrane 172, so that the heat-conducting plate 171 of elastic material is elastically connected to the inner wall of the breathing chamber 16.

[0044] In this way, when the elastic part 15 is deformed under pressure and during the deformation recovery process, the air exchange flow in the ventilation zone 162 is generated. The reciprocating air flows into contact with the heat-conducting plate 171 and promptly removes the heat of the coolant in the cooling zone 161 on the other side, effectively controlling the temperature in the cooling zone 161. Furthermore, when the external squeezing action is applied to the heat-conducting plate 171 through the elastic part 15, the arc-shaped heat-conducting plate 171 corresponds to the arc-shaped ventilation zone 162, and can more comprehensively compress the interior of the ventilation zone 162 after being compressed and moved, further enhancing the air flow exchange caused by the air pressure change inside the ventilation zone 162, making the air exchange in the contact gap area smoother.

[0045] Example 4:

[0046] Based on Embodiment 3, the breathing layer 13 has a double-layer structure, including a support layer 131 surrounding the outer surface of the working end of the data acquisition sensor 12 and a breathable layer 132 located inside the purification zone 14. The breathable layer 132 has an elastic mesh structure, and the support layer 131 can be an elastic membrane structure with anti-slip grooves uniformly arranged on its surface. The support layer 131 also has breathable grooves 133 uniformly arranged on its surface, and the breathable grooves 133 communicate with the gap area between the breathable layer 132 and the support layer 131.

[0047] Specific workflow: Based on the specific workflow in Example 3, in order to ensure the breathability of the entire breathing layer 13, the surface of the support layer 131 is made to directly contact the wearer's fingers, which serves as a support and limiter. The ventilation grooves 133 on the surface of the support layer 131 have a large area, which can ensure air exchange between the gap area between the support layer 131 and the breathable layer 132 and between the support layer 131 and the finger surface. Furthermore, the anti-slip grooves evenly distributed on the surface of the support layer 131 can also increase the frictional stability of the contact gap with the finger surface, while also improving the breathability and ensuring the wearing stability of the entire smart ring.

[0048] During the overall compression deformation of the breathing chamber 16, the change in air pressure promotes enhanced airflow exchange between the airflow in the finger contact gap area and the airflow in the purification zone 14. After the airflow in the contact gap enters the gap area between the breathable layer 132 and the support layer 131, it then evenly penetrates the breathable layer 132 and enters the internal purification zone 14. It fully contacts the purification particles in the gaps between the purification particles, thus playing a role in purification and drying. During this process, direct contact between the finger surface and the breathable layer 132 is avoided, which can prevent sweat and dirt on the finger surface from adhering to the surface of the breathable layer 132 and affecting the overall permeability of the breathable layer 132. The support layer 131 maintains a certain gap between the breathable layer 132 and the finger, reducing the air exchange resistance between the finger contact gap area and the purification zone 14, thereby allowing for more thorough purification of the contact gap area, improving the wearer's comfort, and ensuring the normal operation of the surrounding data acquisition sensor 12.

[0049] Example 5:

[0050] Based on Embodiment 4, an air guide tube 18 is slidably disposed inside the connecting hole 164. One end of the air guide tube 18 is connected to the surface of the breathable layer 132, and the other end is connected to the surface of the heat-conducting plate 171. The annularly distributed air guide tubes 18 are connected by an arc-shaped plate 181. The arc-shaped plate 181 is hollow inside and communicates with the inside of the air guide tubes 18. Air guide holes 182 are uniformly disposed on the surface of the arc-shaped plate 181. The air guide holes 182 can be set to be smaller than the diameter of the internal purified particles, or a filter structure can be set inside the air guide holes 182 to restrict the entry of purified particles. Elastic stirring rods 183 are uniformly disposed on the surface of the arc-shaped plate 181. The stirring rods 183 are inclined, and the air guide holes 182 are located in the gap area between the stirring rods 183.

[0051] Specific workflow: Based on the specific workflow in Example 4, the two ends of the air duct 18 are respectively connected to the breathable layer 132 and the heat-conducting plate 171, which are elastically connected, so that the air duct 18 is in an elastic connection state. With the wearer's movement and the movement of his fingers, the external vibration causes the air duct 18 to vibrate upward along the connecting hole 164, and through the connected arc plate 181 and stirring rod 183, it drives the contacted purification particles in the purification zone 14 to vibrate, improve the fluidity of the purification particles inside the purification zone 14, eliminate the situation where the purification particles in the purification zone 14 may adhere to each other and clump together, and ensure that the purification particles are in a loose and breathable state.

[0052] Furthermore, when airflow exchanges occur between the deformable guide contact gap of the breathing chamber 16 and the purification zone 14, the vibrating air guide tube 18 and the connected arc plate 181 are located in the gap between the purification particles in the purification zone 14. The vibration increases the gap between the purification particles, thereby improving the airflow exchange efficiency between the ventilation zone 162 and the outer contact gap area. This ensures that the exchanged airflow fully contacts the purification particles in different areas, reducing the situation where the purification particles in local areas are not fully utilized.

[0053] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A menopausal women's health monitoring system applied to a smart ring, comprising a data acquisition module, a core sensing module, a data processing module, an application terminal, and an intervention feedback module, characterized in that: The data acquisition module includes wearable hardware components that are embedded in the wearer's finger; the core sensing module includes a data acquisition sensor (12) that is mounted on the wearable hardware components to collect the wearer's physiological state data. The data processing module processes and analyzes the collected physiological state data, identifies adverse state-related data, and displays it on the App interface. The intervention feedback module alerts the wearer to any adverse conditions and generates targeted treatment plans.

2. The menopausal women's health monitoring system applied to a smart ring according to claim 1, characterized in that: The wearable hardware component includes a wearable ring (1), which is a circular ring structure. The outer surface of the wearable ring (1) is provided with a display interface (11) corresponding to the back of the wearer's finger. The inner surface of the wearable ring (1) is provided with an installation groove facing the fingertip. The data acquisition sensor (12) is arranged inside the installation groove, and its working end extends out of the installation groove opening. The part of the mounting slot opening surrounding the working end of the data acquisition sensor (12) is a breathing layer (13). The breathing layer (13) is provided with a mesh breathable structure of elastic material, and a purification zone (14) is provided inside the mounting slot corresponding to the breathing layer (13). The purification zone (14) is filled with purification particles.

3. The menopausal women's health monitoring system applied to a smart ring according to claim 2, characterized in that: The outer surface of the wear ring (1) is configured with an elastic part (15) corresponding to the mounting groove. The elastic part (15) is hollow inside to form a breathing chamber (16), which is connected to the purification zone (14).

4. A menopausal women's health monitoring system applied to a smart ring according to claim 3, characterized in that: The internal area of ​​the breathing chamber (16) is divided into a cooling zone (161) and an air exchange zone (162) by a partition layer (17). The cooling zone (161) is filled with coolant, and an annular cooling pipe (163) is provided inside the wear ring (1). The cooling pipe (163) is connected to the interior of the cooling zone (161). The air exchange zone (162) is connected to the purification zone (14) through a connecting hole (164).

5. A menopausal women's health monitoring system applied to a smart ring according to claim 4, characterized in that: The partition layer (17) includes an arc-shaped heat-conducting plate (171), the edge of which is fixed to the inner wall of the breathing chamber (16) via an elastic membrane (172).

6. A menopausal women's health monitoring system applied to a smart ring according to claim 5, characterized in that: The breathing layer (13) has a double-layer structure, including a support layer (131) surrounding the outer surface of the working end of the data acquisition sensor (12) and a breathable layer (132) located inside the purification zone (14). The breathable layer (132) has an elastic mesh structure. The surface of the support layer (131) is uniformly provided with breathable grooves (133), and the breathable grooves (133) are connected to the gap area between the breathable layer (132) and the support layer (131).

7. A menopausal women's health monitoring system applied to a smart ring according to claim 6, characterized in that: A gas guide tube (18) is slidably disposed inside the connecting hole (164). One end of the gas guide tube (18) is connected to the surface of the breathable layer (132), and the other end is connected to the surface of the heat-conducting plate (171). The annularly distributed gas guide tubes (18) are connected by an arc plate (181). The arc plate (181) is hollow inside and communicates with the inside of the gas guide tubes (18). Gas guide holes (182) are uniformly disposed on the surface of the arc plate (181).

8. A menopausal women's health monitoring system applied to a smart ring according to claim 7, characterized in that: Agitator rods (183) are evenly arranged on the surface of the arc plate (181). The agitator rods (183) are inclined, and the air guide hole (182) is located in the gap area between the agitator rods (183).

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